Consider the electron wave function

ψx=cxx≤1nmcxx≤1nm

where x is in nm. a. Determine the normalization constant c.

b. Draw a graph of c1x2 over the interval -5 nm … x … 5 nm. Provide numerical scales on both axes.

c. Draw a graph of 0 c1x2 0 2 over the interval -5 nm … x … 5 nm. Provide numerical scales.

d. If 106 electrons are detected, how many will be in the interval -1.0 nm … x … 1.0 nm?

Short Answer

Expert verified

The wave function of the electronψx=cxx≤1nmcxx≤1nm

Step by step solution

01

The probability independent

∫-∞+∞ψxdx=1∫-∞+∞ψxdx+∫-11ψxdx+∫12ψxdx=1∫-∞+∞cx2dx+∫-11cxdx+∫12cx2dx=1c2223=1

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Most popular questions from this chapter

Consider the electron wave function

ψX=0x<0nm1.414nm-12e-x1.0nmx≥0nm

where x is in cm.

a. Determine the normalization constant c.

b. Draw a graph of c1x2 over the interval -2 cm ≤x ≤2 cm. Provide numerical scales on both axes.

c. Draw a graph of 0 c1x2 0 2 over the interval -2 cm ≤x ≤2 cm. Provide numerical scales.

d. If 104 electrons are detected, how many will be in the interval 0.00 cm ≤x ≤0.50 cm?

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